RUS  ENG
Full version
PEOPLE

Denisov Viktor Ivanovich

Publications in Math-Net.Ru

  1. Development of the concept of natural geometry for physical interactions

    TMF, 191:2 (2017),  205–211
  2. Using the concept of natural geometry in the nonlinear electrodynamics of the vacuum

    TMF, 172:3 (2012),  505–512
  3. An integral relation for tensor polynomials

    TMF, 166:2 (2011),  216–224
  4. Mathematical modeling of angular distortions in laser ranging of the RadioAstron satellite

    Zh. Vychisl. Mat. Mat. Fiz., 48:8 (2008),  1500–1509
  5. Nonlinear electrodynamic lensing of electromagnetic waves in a magnetic dipole field

    TMF, 150:1 (2007),  85–94
  6. Nonlinear Electromagnetic Delay of Electromagnetic Signals Propagating in the Magnetic Meridian Plane of Pulsars and Magnetars

    TMF, 140:1 (2004),  128–138
  7. A Possibility for Studying Gravitational Properties of the Neutrino

    TMF, 138:1 (2004),  167–176
  8. On the possibility of observing polarisation of vacuum in a magnetic field

    Kvantovaya Elektronika, 33:10 (2003),  938–940
  9. Nonlinear Electrodynamic Delay of Electromagnetic Signals in a Coulomb Field

    TMF, 135:2 (2003),  322–330
  10. Spectra of quantum systems in superstrong inertial force fields

    Kvantovaya Elektronika, 32:9 (2002),  833–834
  11. Investigation of the Effective Space-Time of the Vacuum Nonlinear Electrodynamics in a Magnetic Dipole Field

    TMF, 132:2 (2002),  211–221
  12. Interaction Effect of Plane Electromagnetic Waves in the Born–Infeld Nonlinear Electrodynamics

    TMF, 129:1 (2001),  131–139
  13. On a partial solution of the equations of motion of a material point with a current element in the gravitational and magnetic fields of the Earth

    Vestnik Moskov. Univ. Ser. 1. Mat. Mekh., 2001, no. 6,  58–60
  14. The use of ring lasers for the measurement of relativistic effects

    Kvantovaya Elektronika, 26:2 (1999),  171–174
  15. On verifying the universality of gravitational interaction using an optical method

    TMF, 117:3 (1998),  498–503
  16. Motion of a massive particle in the vicinity of a singular sphere

    TMF, 112:2 (1997),  337–352
  17. Isotropic geodesics in the vicinity of singularity of static spherical symmetric solution

    TMF, 111:2 (1997),  312–320
  18. Analysis of the solution properties of the relativistic theory of gravitation in the vicinity of a singular sphere

    TMF, 111:1 (1997),  144–148
  19. The generalized Nordtvedt effect

    TMF, 110:3 (1997),  470–475
  20. Parametrized post-Newtonian formalism for nonmetric theories of gravitation

    TMF, 96:1 (1993),  79–95
  21. Generalization of the post-Newtonian formalism

    TMF, 91:3 (1992),  500–509
  22. Further remarks on the inequlity of the inertial and gravitational masses in general relativity

    TMF, 85:1 (1990),  16–24
  23. Motion of extended bodies in the extended parametrized post-Newtonian formalism

    TMF, 83:1 (1990),  129–135
  24. Extension of the parametrized post-Newtonian formalism to the case of a quasi-Lorentz frame of reference

    TMF, 81:2 (1989),  301–314
  25. Gravitational experiments in space

    TMF, 78:1 (1989),  3–10
  26. Inequality of the passive gravitational mass and the inertial mass of an extended body

    TMF, 66:1 (1986),  3–12
  27. On the relationship between inertial and gravitational masses in an extended body in metric theories of gravity

    Trudy Mat. Inst. Steklov., 167 (1985),  108–155
  28. Interaction of a weak gravitational wave with the electromagnetic field of a neutron star in the field theory of gravitation and in the general theory of relativity

    TMF, 65:2 (1985),  255–270
  29. Gravitational mechanism of suppression of matter density fluctuations in the early universe

    TMF, 62:1 (1985),  61–75
  30. The energy determined in general relativity on the basis of the traditional Hamiltonian approach does not have physical meaning

    TMF, 56:2 (1983),  301–314
  31. New ideas on the geometry of space-time and gravitation

    Itogi Nauki i Tekhniki. Ser. Sovrem. Probl. Mat., 21 (1982),  3–215
  32. Einstein's formula for gravitational radiation is not a consequence of the general theory of relativity

    TMF, 53:3 (1982),  406–418
  33. The inertial mass defined in the general theory of relativity has no physical meaning

    TMF, 51:2 (1982),  163–170
  34. New theory of space-time and gravitation

    TMF, 50:1 (1982),  3–76
  35. New mechanism of energy release in astrophysical objects

    TMF, 48:3 (1981),  275–283
  36. Do extended bodies move along geodesics of Riemannian space-time?

    TMF, 47:1 (1981),  3–37
  37. Does the general theory of relativity have a classical Newtonian limit?

    TMF, 45:3 (1980),  291–301
  38. Does gravitational radiation exist in the general theory of relativity?

    TMF, 43:2 (1980),  187–201
  39. Gravitational effects in the field theory of gravitation

    TMF, 43:2 (1980),  147–186
  40. New concepts of space-time and gravitation

    TMF, 40:3 (1979),  291–328

  41. On Faddeev's note

    TMF, 56:2 (1983),  316–320


© Steklov Math. Inst. of RAS, 2026